A chamber cross-sectional multi-stage plasma arrangement characterized by escalating charge movement towards chamber center axis through one or more escalation stages contributing to the heating of the plasma, the centering of the plasma on the chamber axis, and creating rotation of the plasma therein. Rotation of the plasma around its axis induces a self-generated magnetic field, which in turn increases plasma stability and confinement. Some of the said stages of the multi-stage arrangement may be created by physical elements and components while others may be induced or generated by externally applying magnetic and/or electric fields or their combinations and/or by injection of electrons, ions or other plasma. 1. A method for generation of a virtual cathode along the central axis of a cylindrical chamber and thereby stably confining plasma contained therein, comprising the steps of: a. producing a vacuum in a cylindrical chamber; b. injecting a gas into the cylindrical chamber; c. applying a magnetic field about a portion of the cylindrical chamber; d. applying an initial electric potential between at least one physical anode wherein at least one of the at least one physical anodes is configured around the central axis and proximal to a first distal end thereof and between a physical cathode configured on the central axis and at a second distal end thereby producing a generally radial initial electric field; e. generating a plasma within the cylindrical chamber; f. generating an axially symmetric region of plasma in which plasma movement around central axis in the presence of said magnetic field and said initial electric field produces a net negative charge and thus a virtual cathode and thus a secondary electric potential and thereby a secondary electric field; and g. heating and further confining the plasma around the central axis, whereby a plasma is generated in a cylindrical chamber in which a magnetic field and an initial electric potential are also generated, and wherein a virtual cathode is generated thereby from region of plasma axially symmetric around the central axis, and wherein the plasma in the cylindrical chamber is further heated and confined by said virtual cathode, and wherein steps (d) and (e) can be taken in any order between steps (c) and (f). 2. The method of claim 1, wherein the heating and further confining of the plasma further comprises the generation of a main reaction stage region spatially overlapping with the virtual cathode region, and wherein plasma acceleration toward the central axis within said main reaction stage is increased by the virtual cathode. 3. The method of claim 2, wherein the at least one physical anode is two physical anodes, and wherein a second physical anode is configured along the central axis of the cylindrical chamber. 4. The method of claim 3, wherein the second physical anode is a conductive apparatus configured proximal to the main reaction stage. 5. The method of claim 4 wherein the second anode is a metallic mesh grid cylinder and has mesh density in the range of 0% to 15% and optimally less than 5%. 6. The method of claim 4 wherein the second anode is composed of high temperature resistant materials such as stainless steel, tungsten or molybdenum. 7. The method of claim 1, wherein the virtual cathode region is configured as an extended toroid concentrically arranged around the central axis. 8. The method of claim 1 wherein the plasma heating is further increased by adiabatic compression of the plasma toward the central axis of the cylindrical chamber. 9. The method of claim 1 wherein a means for applying the magnetic field about a portion of the cylindrical chamber is coupled with a capacitor bank. 10. The method of claim 9 wherein a substantially long current pulse is applied to the means for applying the magnetic field about a portion of the cylindrical chamber. 11. The method of claim 1 wherein heat concentrated at a tip of the at least one cathode causes an additional emission of electrons and thereby distributes the generally radial electric field produced by the initial electric potential, and wherein plasma held by the magnetic field is moved towards the midpoint between distal ends of the cylindrical chamber. 12. A system for stably confining a plasma, comprising: a. a cylindrical chamber; b. a means for generating a magnetic field in the cylindrical chamber; c. a means of injecting gas into the cylindrical chamber; d. at least one physical anode wherein at least one of the at least one physical anodes is configured around the central axis and proximal to a first distal end thereof; e. at least one physical cathode configured on the central axis and at second distal end of the cylindrical chamber; and f. a control unit in communication with all other components; wherein the control unit coordinates the injection of gas into a cylindrical chamber and the generation of a magnetic field and the generation of an initial electric potential and thereby a generally radial initial electric field between the at least one physical anode and the at least one physical cathode. 13. The system of claim 12, further comprising a series of capacitor banks dischargeable into a chamber volume through the physical cathodes or means of generating a magnetic field or a combination thereof. 14. The system of claim 12, further comprising a pre-heating electric power supply coupled with the at least one physical cathode in the cylindrical chamber. FIELD OF THE INVENTION: The present invention relates to a relatively small linear stable plasma confinement systems and methods for the harvesting of various types of products and effects derivable from such phenomena. BACKGROUND OF THE INVENTION: Plasma is a highly ionized gas containing an approximately equal number of positive ions and electrons. A plasma is electrically conductive, and can, therefore, be manipulated by electrical or magnetic fields. Obtaining a stable plasma at such operable temperatures is a challenge much discussed in the art. Current systems and methods to such end are complex, require very large physical installations and do not present commonly commodified applicable means to harvest the widely known benefits and advantages of such phenomena. SUMMARY OF THE INVENTION: The present invention provides a system and method for creating a local self-generated magnetic field arranged to contribute to a substantially stable plasma and ion heating mechanism. Various combinations of such arrangement provide for facilitation of high efficiency plasma processes (such as neutron sources, extreme UV, etching process, etc.). The present invention substantially introduces the following aspects: plasma confinement; ion and/or electron heating in plasma; density increasing of plasma; high or extremely high stability of plasma; highly stable for relatively long periods of time (magnitude of milliseconds) plasma; and a mostly axial-symmetric chamber design. A relatively long-term stable plasma is termed herein as Super Stable Confined Plasma (SSCP). DETAILED DESCRIPTION: An axial-symmetric shape of the plasma is maintained stable and coaxial by a combination of system components including a cylindrical chamber (100), an inner anode element (145), an electrode (140) positioned at each end of the tubular chamber, external solenoids/magnets (160), capacitor banks (800), a controlling unit (500), a vacuum pumping system (600), a pre-heating electric power supply (700), and a working gas source (900). The cross-product of the linear magnetic field flux with a radial electric field results in the creation of a strong internal magnetic field with closed field lines within the chamber, maintaining axial symmetry and confinement.